Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer

Temperature is an important environmental factor affecting streamer discharge. However, the mechanism and regularity of the influence are still unclear. This paper analyzes the mechanism of how the parameters in the hydrodynamic model are affected by temperature and the finite element method is used...

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Main Authors: Peng Tian, Yuanyuan Shan, Guanghui Liu, Changhong Li, Guoliang Li
Format: Article
Language:English
Published: IEEE 2023-01-01
Series:IEEE Access
Subjects:
Online Access:https://ieeexplore.ieee.org/document/10121066/
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author Peng Tian
Yuanyuan Shan
Guanghui Liu
Changhong Li
Guoliang Li
author_facet Peng Tian
Yuanyuan Shan
Guanghui Liu
Changhong Li
Guoliang Li
author_sort Peng Tian
collection DOAJ
description Temperature is an important environmental factor affecting streamer discharge. However, the mechanism and regularity of the influence are still unclear. This paper analyzes the mechanism of how the parameters in the hydrodynamic model are affected by temperature and the finite element method is used to solve three particle continuity equations along with Poisson&#x2019;s equation simultaneously. The results show that the increase in temperature inhibits the ionization and the attachment process, and the reduction rate of the ionization coefficient is 40 times the attachment coefficient numerically, which means that the streamer is easier to initiate at low temperatures. The increase in temperature accelerates the diffusion and drift of electrons. This effect increases the average velocity of the streamer, and the average velocity increases by about 4.89m/(<inline-formula> <tex-math notation="LaTeX">$\text{s}\cdot \text{K}$ </tex-math></inline-formula>) with temperature, which means that the fast-moving charged particles at high temperature may affect the discharge signals. The essence of the influence of temperature on the physical quntities in the streamer discharge is its influence on ionization, attachment, diffusion, and drift effects. The results in this paper can comprehensively consider the effects and obtain the effect mechanism of temperature on the micro-process of the streamer, contributing to the research on the insulation design of power equipment and the influence of temperature on the discharge signals.
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spelling doaj.art-feabcfa4bc2842aebc67e8e20e3e91132023-05-11T23:00:21ZengIEEEIEEE Access2169-35362023-01-0111450564506510.1109/ACCESS.2023.327361110121066Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of StreamerPeng Tian0https://orcid.org/0009-0008-6072-0081Yuanyuan Shan1Guanghui Liu2Changhong Li3Guoliang Li4State Grid Shandong Electric Power Company of Zaozhuang Power Supply Company, Zaozhuang, Xuecheng, ChinaState Grid Shandong Electric Power Company of Zaozhuang Power Supply Company, Zaozhuang, Xuecheng, ChinaState Grid Shandong Electric Power Company of Zaozhuang Power Supply Company, Zaozhuang, Xuecheng, ChinaState Grid Shandong Electric Power Company of Zaozhuang Power Supply Company, Zaozhuang, Xuecheng, ChinaState Grid Shandong Electric Power Company of Zaozhuang Power Supply Company, Zaozhuang, Xuecheng, ChinaTemperature is an important environmental factor affecting streamer discharge. However, the mechanism and regularity of the influence are still unclear. This paper analyzes the mechanism of how the parameters in the hydrodynamic model are affected by temperature and the finite element method is used to solve three particle continuity equations along with Poisson&#x2019;s equation simultaneously. The results show that the increase in temperature inhibits the ionization and the attachment process, and the reduction rate of the ionization coefficient is 40 times the attachment coefficient numerically, which means that the streamer is easier to initiate at low temperatures. The increase in temperature accelerates the diffusion and drift of electrons. This effect increases the average velocity of the streamer, and the average velocity increases by about 4.89m/(<inline-formula> <tex-math notation="LaTeX">$\text{s}\cdot \text{K}$ </tex-math></inline-formula>) with temperature, which means that the fast-moving charged particles at high temperature may affect the discharge signals. The essence of the influence of temperature on the physical quntities in the streamer discharge is its influence on ionization, attachment, diffusion, and drift effects. The results in this paper can comprehensively consider the effects and obtain the effect mechanism of temperature on the micro-process of the streamer, contributing to the research on the insulation design of power equipment and the influence of temperature on the discharge signals.https://ieeexplore.ieee.org/document/10121066/Streamerinfluence of temperatureparametershydrodynamic modelsimulation
spellingShingle Peng Tian
Yuanyuan Shan
Guanghui Liu
Changhong Li
Guoliang Li
Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer
IEEE Access
Streamer
influence of temperature
parameters
hydrodynamic model
simulation
title Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer
title_full Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer
title_fullStr Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer
title_full_unstemmed Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer
title_short Analysis of Temperature Sensitivity Parameters in Hydrodynamic Model of Streamer
title_sort analysis of temperature sensitivity parameters in hydrodynamic model of streamer
topic Streamer
influence of temperature
parameters
hydrodynamic model
simulation
url https://ieeexplore.ieee.org/document/10121066/
work_keys_str_mv AT pengtian analysisoftemperaturesensitivityparametersinhydrodynamicmodelofstreamer
AT yuanyuanshan analysisoftemperaturesensitivityparametersinhydrodynamicmodelofstreamer
AT guanghuiliu analysisoftemperaturesensitivityparametersinhydrodynamicmodelofstreamer
AT changhongli analysisoftemperaturesensitivityparametersinhydrodynamicmodelofstreamer
AT guoliangli analysisoftemperaturesensitivityparametersinhydrodynamicmodelofstreamer